IEnumerator ButtonHoverExit(ButtonPad buttonInstance)
{
//for node size
float vel = 0f;
//for node movement
float moveVel = 0.0f;
float moveSpeed = 4.0f;
float current = 0f;
float target = .25f * buttonInstance.textStyle.textSize;
while (current < target - .01f)
{
Color color = buttonInstance.GetComponent <MeshRenderer>().material.color;
color.a = Mathf.SmoothDamp(color.a, .17f, ref vel, .02f);
buttonInstance.GetComponent <MeshRenderer>().material.color = color;
current = Mathf.SmoothDamp(current, target, ref moveVel, moveSpeed * Time.deltaTime);
buttonInstance.node.transform.Translate(0f, 0f, -current);
yield return(null);
}
}
// This class maps GPIOs to Buttons processable by Microsoft.SPOT.Presentation
public GPIOButtonInputProvider(PresentationSource source)
{
// Set the input source.
this.source = source;
// Register our object as an input source with the input manager and get back an
// InputProviderSite object which forwards the input report to the input manager,
// which then places the input in the staging area.
site = InputManager.CurrentInputManager.RegisterInputProvider(this);
// Create a delegate that refers to the InputProviderSite object's ReportInput method
callback = new ReportInputCallback(site.ReportInput);
Dispatcher = Dispatcher.CurrentDispatcher;
// Allocate button pads and assign the (emulated) hardware pins as input
// from specific buttons.
ButtonPad[] buttons = new ButtonPad[]
{
// Associate the buttons to the pins as setup in the emulator/hardware
new ButtonPad(this, Button.Left , Meridian.Pins.GPIO6),
new ButtonPad(this, Button.Right , Meridian.Pins.GPIO8),
new ButtonPad(this, Button.Up , Meridian.Pins.GPIO5),
new ButtonPad(this, Button.Select, Meridian.Pins.GPIO7),
new ButtonPad(this, Button.Down , Meridian.Pins.GPIO9),
};
this.buttons = buttons;
}
// This class maps GPIOs to Buttons processable by nanoFramework.UI.Presentation
public GpioButtonInputProvider(PresentationSource source)
{
// Set the input source.
this.source = source;
// Register our object as an input source with the input manager and get back an
// InputProviderSite object which forwards the input report to the input manager,
// which then places the input in the staging area.
site = InputManager.CurrentInputManager.RegisterInputProvider(this);
// Create a delegate that refers to the InputProviderSite object's ReportInput method
callback = new ReportInputCallback(site.ReportInput);
Dispatcher = Dispatcher.CurrentDispatcher;
GpioPin pinLeft = Gpio.OpenPin(1);
GpioPin pinRight = Gpio.OpenPin(2);
GpioPin pinUp = Gpio.OpenPin(3);
GpioPin pinSelect = Gpio.OpenPin(4);
GpioPin pinDown = Gpio.OpenPin(5);
// Allocate button pads and assign the (emulated) hardware pins as input
// from specific buttons.
ButtonPad[] buttons = new ButtonPad[]
{
// Associate the buttons to the pins as discovered or set above
new ButtonPad(this, Button.VK_LEFT, pinLeft),
new ButtonPad(this, Button.VK_RIGHT, pinRight),
new ButtonPad(this, Button.VK_UP, pinUp),
new ButtonPad(this, Button.VK_SELECT, pinSelect),
new ButtonPad(this, Button.VK_DOWN, pinDown),
};
this.buttons = buttons;
}
IEnumerator ButtonHover(ButtonPad buttonInstance)
{
//for node size
float vel = 0.0f;
//for node movement
float moveVel = 0.0f;
float moveSpeed = 4.0f;
float current = 0f;
float target = .25f * buttonInstance.textStyle.textSize;
Vector3 newPos;
//changes color and moves button vector3.forward on "mouseover" (uses SmoothDamp)
while (current < target - .01f)
{
Color color = buttonInstance.GetComponent <MeshRenderer>().material.color;
color.a = Mathf.SmoothDamp(color.a, .55f, ref vel, .02f);
buttonInstance.GetComponent <MeshRenderer>().material.color = color;
current = Mathf.SmoothDamp(current, target, ref moveVel, moveSpeed * Time.deltaTime);
buttonInstance.node.transform.Translate(0f, 0f, current);
yield return(null);
}
}
public void ChangeMessage(TextNode node)
{
if (node.GetComponentsInChildren <GameTextCharacter>().Length > 0)
{
GameTextCharacter[] previousCharacters = node.GetComponentsInChildren <GameTextCharacter>();
for (int i = 0; i < previousCharacters.Length; i++)
{
Destroy(previousCharacters[i].gameObject);
}
ButtonPad previousPad = node.GetComponentInChildren <ButtonPad>();
if (previousPad != null)
{
Destroy(previousPad.gameObject);
}
}
char[] messageArray = node.Message.ToCharArray();
Vector3[] characterLocalPositions = GetCharacterPositions(node.transform, node.TextSize, messageArray);
GameTextCharacter[] prefabArray = new GameTextCharacter[messageArray.Length];
for (int i = 0; i < messageArray.Length; i++)
{
GameTextCharacter instance = Instantiate(characters[messageArray[i]], node.transform);
instance.transform.localPosition = characterLocalPositions[i];
instance.transform.Rotate(0, 90, 90);
prefabArray[i] = instance;
}
node.PrefabArray = prefabArray;
}
/// <summary>
/// Maps GPIOs to Buttons processable by Microsoft.SPOT.Presentation.
/// </summary>
/// <param name="source"></param>
public GPIOButtonInputProvider(PresentationSource source)
{
// Set the input source.
this.source = source;
// Register the object as an input source with the input manager and
// get back an InputProviderSite object. The InputProviderSite
// object forwards the input report to the input manager. The input
// manager then places the input in the staging area.
site = InputManager.CurrentInputManager.RegisterInputProvider(this);
// Create a delegate that refers to the InputProviderSite object's
// ReportInput method.
callback = new DispatcherOperationCallback(delegate(object report)
{
InputReportArgs args = (InputReportArgs)report;
return site.ReportInput(args.Device, args.Report);
});
Dispatcher = Dispatcher.CurrentDispatcher;
// Create a hardware provider.
HardwareProvider hwProvider = new HardwareProvider();
// Create the pins that are needed for the buttons. Default their
// values for the emulator.
Cpu.Pin pinLeft = Cpu.Pin.GPIO_Pin0;
Cpu.Pin pinRight = Cpu.Pin.GPIO_Pin1;
Cpu.Pin pinUp = Cpu.Pin.GPIO_Pin2;
Cpu.Pin pinSelect = Cpu.Pin.GPIO_Pin3;
Cpu.Pin pinDown = Cpu.Pin.GPIO_Pin4;
// Use the hardware provider to get the pins. If the left pin is
// not set, assume none of the pins are set and set the left pin
// back to the default emulator value.
if ((pinLeft = hwProvider.GetButtonPins(Button.VK_LEFT)) ==
Cpu.Pin.GPIO_NONE)
pinLeft = Cpu.Pin.GPIO_Pin0;
else
{
pinRight = hwProvider.GetButtonPins(Button.VK_RIGHT);
pinUp = hwProvider.GetButtonPins(Button.VK_UP);
pinSelect = hwProvider.GetButtonPins(Button.VK_SELECT);
pinDown = hwProvider.GetButtonPins(Button.VK_DOWN);
}
// Allocate button pads and assign the (emulated) hardware pins as
// input from specific buttons.
ButtonPad[] buttons = new ButtonPad[]
{
// Associate the buttons with the pins as discovered or set
// above.
new ButtonPad(this, Button.VK_LEFT , pinLeft ),
new ButtonPad(this, Button.VK_RIGHT , pinRight ),
new ButtonPad(this, Button.VK_UP , pinUp ),
new ButtonPad(this, Button.VK_SELECT, pinSelect),
new ButtonPad(this, Button.VK_DOWN , pinDown ),
};
this.buttons = buttons;
}
// This class maps GPIOs to Buttons processable by Microsoft.SPOT.Presentation
public GPIOButtonInputProvider(PresentationSource source)
{
// Set the input source.
this.source = source;
// Register our object as an input source with the input manager and get back an
// InputProviderSite object which forwards the input report to the input manager,
// which then places the input in the staging area.
site = InputManager.CurrentInputManager.RegisterInputProvider(this);
// Create a delegate that refers to the InputProviderSite object's ReportInput method
callback = new ReportInputCallback(site.ReportInput);
Dispatcher = Dispatcher.CurrentDispatcher;
// Allocate button pads and assign the (emulated) hardware pins as input
// from specific buttons.
ButtonPad[] buttons = new ButtonPad[]
{
// Associate the buttons to the pins as setup in the emulator/hardware
new ButtonPad(this, Button.VK_LEFT, (Cpu.Pin) 86),
new ButtonPad(this, Button.VK_RIGHT, (Cpu.Pin) 87),
new ButtonPad(this, Button.VK_UP, (Cpu.Pin) 88),
new ButtonPad(this, Button.VK_SELECT, (Cpu.Pin) 89),
new ButtonPad(this, Button.VK_DOWN, (Cpu.Pin) 90),
// For a hardware board that has predefined buttons, can use the
// Microsoft.SPOT.Hardware.GetButtonPin to retrieve the GPIO pin number associate
// with button name
// new ButtonPad(this, Button.Left , hwProvider.GetButtonPins(Button.Left)),
// new ButtonPad(this, Button.Right , hwProvider.GetButtonPins(Button.Right)),
// new ButtonPad(this, Button.Up , hwProvider.GetButtonPins(Button.Up)),
// new ButtonPad(this, Button.Select, hwProvider.GetButtonPins(Button.Select)),
// new ButtonPad(this, Button.Down , hwProvider.GetButtonPins(Button.Down)),
};
this.buttons = buttons;
}
// This class maps GPIOs to Buttons processable by Microsoft.SPOT.Presentation
public GPIOButtonInputProvider(PresentationSource source)
{
// Set the input source.
this.source = source;
// Register our object as an input source with the input manager and get back an
// InputProviderSite object which forwards the input report to the input manager,
// which then places the input in the staging area.
site = InputManager.CurrentInputManager.RegisterInputProvider(this);
// Create a delegate that refers to the InputProviderSite object's ReportInput method
callback = new ReportInputCallback(site.ReportInput);
Dispatcher = Dispatcher.CurrentDispatcher;
// Allocate button pads and assign the (emulated) hardware pins as input
// from specific buttons.
ButtonPad[] buttons = new ButtonPad[]
{
// Associate the buttons to the pins as setup in the emulator/hardware
new ButtonPad(this, Button.Left, Meridian.Pins.GPIO6),
new ButtonPad(this, Button.Right, Meridian.Pins.GPIO8),
new ButtonPad(this, Button.Up, Meridian.Pins.GPIO5),
new ButtonPad(this, Button.Select, Meridian.Pins.GPIO7),
new ButtonPad(this, Button.Down, Meridian.Pins.GPIO9),
};
this.buttons = buttons;
}
// This class maps GPIOs to Buttons processable by Microsoft.SPOT.Presentation
public GPIOButtonInputProvider(PresentationSource source)
{
// Set the input source.
this.source = source;
// Register our object as an input source with the input manager and get back an
// InputProviderSite object which forwards the input report to the input manager,
// which then places the input in the staging area.
site = InputManager.CurrentInputManager.RegisterInputProvider(this);
// Create a delegate that refers to the InputProviderSite object's ReportInput method
callback = new ReportInputCallback(site.ReportInput);
Dispatcher = Dispatcher.CurrentDispatcher;
// Create a hardware provider
HardwareProvider hwProvider = new HardwareProvider();
// Create the pins we will need for the buttons
// Default their values for the emulator
Cpu.Pin pinLeft = Cpu.Pin.GPIO_Pin0;
Cpu.Pin pinRight = Cpu.Pin.GPIO_Pin1;
Cpu.Pin pinUp = Cpu.Pin.GPIO_Pin2;
Cpu.Pin pinSelect = Cpu.Pin.GPIO_Pin3;
Cpu.Pin pinDown = Cpu.Pin.GPIO_Pin4;
// Use the hardware provider to get the pins
// If the left pin is not set then assume none of them are
// and set the left pin back to the default emulator value
if ((pinLeft = hwProvider.GetButtonPins(Button.VK_LEFT)) == Cpu.Pin.GPIO_NONE)
{
pinLeft = Cpu.Pin.GPIO_Pin0;
}
else
{
pinRight = hwProvider.GetButtonPins(Button.VK_RIGHT);
pinUp = hwProvider.GetButtonPins(Button.VK_UP);
pinSelect = hwProvider.GetButtonPins(Button.VK_SELECT);
pinDown = hwProvider.GetButtonPins(Button.VK_DOWN);
}
// Allocate button pads and assign the (emulated) hardware pins as input
// from specific buttons.
ButtonPad[] buttons = new ButtonPad[]
{
// Associate the buttons to the pins as discovered or set above
new ButtonPad(this, Button.VK_LEFT, pinLeft),
new ButtonPad(this, Button.VK_RIGHT, pinRight),
new ButtonPad(this, Button.VK_UP, pinUp),
new ButtonPad(this, Button.VK_SELECT, pinSelect),
new ButtonPad(this, Button.VK_DOWN, pinDown),
};
this.buttons = buttons;
}
/// <summary>
/// Maps GPIOs to Buttons that can be processed by
/// Microsoft.SPOT.Presentation.
/// </summary>
/// <param name="source"></param>
public GPIOButtonInputProvider(PresentationSource source)
{
// Set the input source.
this.source = source;
// Register our object as an input source with the input manager and
// get back an InputProviderSite object which forwards the input
// report to the input manager, which then places the input in the
// staging area.
site = InputManager.CurrentInputManager.RegisterInputProvider(this);
// Create a delegate that refers to the InputProviderSite object's
// ReportInput method.
callback = new DispatcherOperationCallback(delegate(object report)
{
InputReportArgs args = (InputReportArgs)report;
return(site.ReportInput(args.Device, args.Report));
});
Dispatcher = Dispatcher.CurrentDispatcher;
//--------------
// Create a hardware provider.
// HardwareProvider hwProvider = new HardwareProvider();
//--------------
// Create the pins that are needed for the buttons. Default their
// values for the emulator.
GpioPin pinLeft = Gpio.OpenPin(1);
GpioPin pinRight = Gpio.OpenPin(2);
GpioPin pinUp = Gpio.OpenPin(3);
GpioPin pinSelect = Gpio.OpenPin(4);
GpioPin pinDown = Gpio.OpenPin(5);
// Allocate button pads and assign the (emulated) hardware pins as
// input from specific buttons.
ButtonPad[] buttons = new ButtonPad[]
{
// Associate the buttons to the pins as discovered or set above
new ButtonPad(this, Button.VK_LEFT, pinLeft),
new ButtonPad(this, Button.VK_RIGHT, pinRight),
new ButtonPad(this, Button.VK_UP, pinUp),
new ButtonPad(this, Button.VK_SELECT, pinSelect),
new ButtonPad(this, Button.VK_DOWN, pinDown),
};
this.buttons = buttons;
}
// This class maps GPIOs to Buttons processable by Microsoft.SPOT.Presentation
public GPIOButtonInputProvider(PresentationSource source)
{
// Set the input source.
this.source = source;
// Register our object as an input source with the input manager and get back an
// InputProviderSite object which forwards the input report to the input manager,
// which then places the input in the staging area.
site = InputManager.CurrentInputManager.RegisterInputProvider(this);
// Create a delegate that refers to the InputProviderSite object's ReportInput method
callback = new ReportInputCallback(site.ReportInput);
Dispatcher = Dispatcher.CurrentDispatcher;
// Create a hardware provider
HardwareProvider hwProvider = new HardwareProvider();
// Create the pins we will need for the buttons
// Default their values for the emulator
Cpu.Pin pinLeft = Cpu.Pin.GPIO_Pin0;
Cpu.Pin pinRight = Cpu.Pin.GPIO_Pin1;
Cpu.Pin pinUp = Cpu.Pin.GPIO_Pin2;
Cpu.Pin pinSelect = Cpu.Pin.GPIO_Pin3;
Cpu.Pin pinDown = Cpu.Pin.GPIO_Pin4;
// Use the hardware provider to get the pins
// If the left pin is not set then assume none of them are
// and set the left pin back to the default emulator value
if ((pinLeft = hwProvider.GetButtonPins(Button.VK_LEFT)) == Cpu.Pin.GPIO_NONE)
pinLeft = Cpu.Pin.GPIO_Pin0;
else
{
pinRight = hwProvider.GetButtonPins(Button.VK_RIGHT);
pinUp = hwProvider.GetButtonPins(Button.VK_UP);
pinSelect = hwProvider.GetButtonPins(Button.VK_SELECT);
pinDown = hwProvider.GetButtonPins(Button.VK_DOWN);
}
// Allocate button pads and assign the (emulated) hardware pins as input
// from specific buttons.
ButtonPad[] buttons = new ButtonPad[]
{
// Associate the buttons to the pins as discovered or set above
new ButtonPad(this, Button.VK_LEFT , pinLeft),
new ButtonPad(this, Button.VK_RIGHT , pinRight),
new ButtonPad(this, Button.VK_UP , pinUp),
new ButtonPad(this, Button.VK_SELECT, pinSelect),
new ButtonPad(this, Button.VK_DOWN , pinDown),
};
this.buttons = buttons;
}
IEnumerator TextButtonClick(ButtonPad buttonInstance)
{
float speed = 2.0f;
float targetScale = .09f;
float vel = 0f;
while (buttonInstance.transform.parent.transform.localScale.x > .1)
{
Vector3 newScale = buttonInstance.transform.parent.transform.localScale;
newScale.x = Mathf.SmoothDamp(newScale.x, targetScale, ref vel, speed * Time.deltaTime);
newScale.y = Mathf.SmoothDamp(newScale.y, targetScale, ref vel, speed * Time.deltaTime);
buttonInstance.transform.parent.transform.localScale = newScale;
yield return(null);
}
//stopping all coroutines to prevent errors in case hover or exit animation still running (for now)
StopAllCoroutines();
buttonInstance.trigger();
}
public GPIOButtonInputProvider(PresentationSource source)
{
_source = source;
_site = InputManager.CurrentInputManager.RegisterInputProvider(this);
_callback = new DispatcherOperationCallback(delegate(object report)
{
InputReportArgs args = (InputReportArgs)report;
return(_site.ReportInput(args.Device, args.Report));
});
Dispatcher = Dispatcher.CurrentDispatcher;
ButtonPad[] buttons = new ButtonPad[]
{
new ButtonPad(this, Button.VK_MENU, Pins.GPIO_PORT_A_3, Port.InterruptMode.InterruptEdgeBoth),
new ButtonPad(this, Button.VK_SELECT, Pins.GPIO_PORT_A_8, Port.InterruptMode.InterruptEdgeBoth),
new ButtonPad(this, Button.VK_LEFT, Pins.GPIO_PORT_A_7, Port.InterruptMode.InterruptEdgeBoth),
new ButtonPad(this, Button.VK_RIGHT, Pins.GPIO_PORT_A_5, Port.InterruptMode.InterruptEdgeBoth),
new ButtonPad(this, Button.VK_UP, Pins.GPIO_PORT_A_4, Port.InterruptMode.InterruptEdgeBoth),
new ButtonPad(this, Button.VK_DOWN, Pins.GPIO_PORT_A_6, Port.InterruptMode.InterruptEdgeBoth),
};
_buttons = buttons;
}
public GPIOButtonInputProvider(PresentationSource source)
{
_source = source;
_site = InputManager.CurrentInputManager.RegisterInputProvider(this);
_callback = new DispatcherOperationCallback(delegate(object report)
{
InputReportArgs args = (InputReportArgs)report;
return _site.ReportInput(args.Device, args.Report);
});
Dispatcher = Dispatcher.CurrentDispatcher;
ButtonPad[] buttons = new ButtonPad[]
{
new ButtonPad(this, Button.VK_MENU, Pins.GPIO_PORT_A_3, Port.InterruptMode.InterruptEdgeBoth),
new ButtonPad(this, Button.VK_SELECT, Pins.GPIO_PORT_A_8, Port.InterruptMode.InterruptEdgeBoth),
new ButtonPad(this, Button.VK_LEFT, Pins.GPIO_PORT_A_7, Port.InterruptMode.InterruptEdgeBoth),
new ButtonPad(this, Button.VK_RIGHT, Pins.GPIO_PORT_A_5, Port.InterruptMode.InterruptEdgeBoth),
new ButtonPad(this, Button.VK_UP, Pins.GPIO_PORT_A_4, Port.InterruptMode.InterruptEdgeBoth),
new ButtonPad(this, Button.VK_DOWN, Pins.GPIO_PORT_A_6, Port.InterruptMode.InterruptEdgeBoth),
};
_buttons = buttons;
}
// This class maps GPIOs to Buttons processable by Microsoft.SPOT.Presentation
public GPIOButtonInputProvider(PresentationSource source)
{
// Set the input source.
this.source = source;
// Register our object as an input source with the input manager and get back an
// InputProviderSite object which forwards the input report to the input manager,
// which then places the input in the staging area.
site = InputManager.CurrentInputManager.RegisterInputProvider(this);
// Create a delegate that refers to the InputProviderSite object's ReportInput method
callback = new ReportInputCallback(site.ReportInput);
Dispatcher = Dispatcher.CurrentDispatcher;
// Allocate button pads and assign the (emulated) hardware pins as input
// from specific buttons.
ButtonPad[] buttons = new ButtonPad[]
{
// Associate the buttons to the pins as setup in the emulator/hardware
new ButtonPad(this, Button.VK_LEFT , (Cpu.Pin)86),
new ButtonPad(this, Button.VK_RIGHT , (Cpu.Pin)87),
new ButtonPad(this, Button.VK_UP , (Cpu.Pin)88),
new ButtonPad(this, Button.VK_SELECT, (Cpu.Pin)89),
new ButtonPad(this, Button.VK_DOWN , (Cpu.Pin)90),
// For a hardware board that has predefined buttons, can use the
// Microsoft.SPOT.Hardware.GetButtonPin to retrieve the GPIO pin number associate
// with button name
// new ButtonPad(this, Button.Left , hwProvider.GetButtonPins(Button.Left)),
// new ButtonPad(this, Button.Right , hwProvider.GetButtonPins(Button.Right)),
// new ButtonPad(this, Button.Up , hwProvider.GetButtonPins(Button.Up)),
// new ButtonPad(this, Button.Select, hwProvider.GetButtonPins(Button.Select)),
// new ButtonPad(this, Button.Down , hwProvider.GetButtonPins(Button.Down)),
};
this.buttons = buttons;
}
/// <summary>
/// Maps GPIOs to Buttons that can be processed by
/// Microsoft.SPOT.Presentation.
/// </summary>
/// <param name="source"></param>
public GPIOButtonInputProvider(PresentationSource source)
{
// Set the input source.
this.source = source;
// Register our object as an input source with the input manager and
// get back an InputProviderSite object which forwards the input
// report to the input manager, which then places the input in the
// staging area.
site = InputManager.CurrentInputManager.RegisterInputProvider(this);
// Create a delegate that refers to the InputProviderSite object's
// ReportInput method.
callback = new DispatcherOperationCallback(delegate(object report)
{
#if MF_FRAMEWORK_VERSION_V3_0
return(site.ReportInput((InputReport)report));
#else
InputReportArgs args = (InputReportArgs)report;
return(site.ReportInput(args.Device, args.Report));
#endif
});
Dispatcher = Dispatcher.CurrentDispatcher;
// Create a hardware provider.
HardwareProvider hwProvider = new HardwareProvider();
// Create the pins that are needed for the buttons. Default their
// values for the emulator.
Cpu.Pin pinLeft = Cpu.Pin.GPIO_Pin0;
Cpu.Pin pinRight = Cpu.Pin.GPIO_Pin1;
Cpu.Pin pinUp = Cpu.Pin.GPIO_Pin2;
Cpu.Pin pinSelect = Cpu.Pin.GPIO_Pin3;
Cpu.Pin pinDown = Cpu.Pin.GPIO_Pin4;
// Use the hardware provider to get the pins. If the left pin is
// not set, assume none of the pins are set, and set the left pin
// back to the default emulator value.
if ((pinLeft = hwProvider.GetButtonPins(Button.VK_LEFT)) ==
Cpu.Pin.GPIO_NONE)
{
pinLeft = Cpu.Pin.GPIO_Pin0;
}
else
{
pinRight = hwProvider.GetButtonPins(Button.VK_RIGHT);
pinUp = hwProvider.GetButtonPins(Button.VK_UP);
pinSelect = hwProvider.GetButtonPins(Button.VK_SELECT);
pinDown = hwProvider.GetButtonPins(Button.VK_DOWN);
}
// Allocate button pads and assign the (emulated) hardware pins as
// input from specific buttons.
ButtonPad[] buttons = new ButtonPad[]
{
// Associate the buttons to the pins as discovered or set above
new ButtonPad(this, Button.VK_LEFT, pinLeft),
new ButtonPad(this, Button.VK_RIGHT, pinRight),
new ButtonPad(this, Button.VK_UP, pinUp),
new ButtonPad(this, Button.VK_SELECT, pinSelect),
new ButtonPad(this, Button.VK_DOWN, pinDown),
};
this.buttons = buttons;
}
public void PointerExitButton(ButtonPad buttonInstance)
{
StartCoroutine(ButtonHoverExit(buttonInstance));
}
public void GameTextButtonClick(ButtonPad buttonInstance)
{
StartCoroutine(TextButtonClick(buttonInstance));
}
